def get_lifetime_weight(tree, ctau, ctau_MC):
if len(tree.Rhadron_properdecaytime) != 2:
#print('vector size of Rhadron_properdecaytime is not 2. return weight=0.')
return 0
dt1 = tree.Rhadron_properdecaytime[0] * 1e-9 # [ns]->[s]
dt2 = tree.Rhadron_properdecaytime[1] * 1e-9 # [ns]->[s]
tau = ctau / TMath.C()
tau_MC = ctau_MC / TMath.C()
weight_rhad1 = tau_MC / tau * TMath.Exp(dt1 / tau_MC - dt1 / tau)
weight_rhad2 = tau_MC / tau * TMath.Exp(dt2 / tau_MC - dt2 / tau)
return weight_rhad1 * weight_rhad2
def fill_ntuple():
print('*** starting fill_ntuple() ')
AtlasStyle.SetAtlasStyle()
# # get key list
# tfile = TFile(BasicConfig.workdir + 'systTree.root')
# key_list_all = [key.GetName() for key in gDirectory.GetListOfKeys()]
# regex = re.compile('PRW|JET|MET.*')
# key_list = [key for key in key_list_all if re.match(regex, key)]
# tfile.Close()
# start making ttree
#output_tfile = TFile('rhadron_v06-00-05.root', 'recreate')
output_tfile = TFile(args.outputFile, 'recreate')
# initialize TTree
tree = TTree('rhadron', 'tree of rhadron properties for limit setting')
# leaf variables
from array import array
mass_gluino = array('f', [0.])
delta_mass = array('f', [0.])
ctau = array('f', [0.])
eff = array('f', [0.])
eff_stat_error = array('f', [0.])
eff_syst_error = array('f', [0.])
eff_syst_error_ISR = array('f', [0.])
eff_syst_error_PRW = array('f', [0.])
eff_syst_error_JET = array('f', [0.])
eff_syst_error_MET = array('f', [0.])
# set branch
tree.Branch("mGluino", mass_gluino, 'mGluino/F')
tree.Branch("deltaM", delta_mass, 'deltaM/F')
tree.Branch("ctau", ctau, 'ctau/F')
tree.Branch("eff", eff, 'eff/F')
tree.Branch("effRelStatErr", eff_stat_error, 'effRelStatErr/F')
tree.Branch("effRelSystErr", eff_syst_error, 'effRelSystErr/F')
tree.Branch("effRelSystErrISR", eff_syst_error_ISR, 'effRelSystErrISR/F')
tree.Branch("effRelSystErrPRW", eff_syst_error_PRW, 'effRelSystErrPRW/F')
tree.Branch("effRelSystErrJET", eff_syst_error_JET, 'effRelSystErrJET/F')
tree.Branch("effRelSystErrMET", eff_syst_error_MET, 'effRelSystErrMET/F')
#directory = '/afs/cern.ch/work/k/kmotohas/DisplacedVertex/DV_xAODAnalysis/submitDir_LSF/mc/hist_DVPlusMETSys/'
#directory = BasicConfig.workdir + 'hist_DVPlusMETSys/'
#directory = '/home/motohash/data/mc15_13TeV/DVPlusMETSys/v06-00-05/'
#tfile = TFile(args.referenceFile)
tfile = TFile(args.inputFile)
key_list_all = [key.GetName() for key in gDirectory.GetListOfKeys()]
print(len(key_list_all), key_list_all)
regex = re.compile('Nominal|PRW|JET|MET.*')
key_list = [key for key in key_list_all if re.match(regex, key)]
print(len(key_list), key_list)
tfile.Close()
#c = 299792458. # [m/s]
#tchains = [[dsid, TChain('Nominal', str(dsid))] for dsid in range(402700, 402740)]
#tchains = [[dsid, TChain('Nominal', str(dsid))] for dsid in mc.parameters.keys()]
#tchains = [[dsid, [TChain(key, key+str(dsid)) for key in key_list]] for dsid in mc.parameters.keys()]
dsids = [args.DSID]
tchains = [[dsid, [TChain(key, key + str(dsid)) for key in key_list]]
for dsid in dsids]
cut_flow = [
'Initial', 'Trigger', 'Filter', 'Cleaning', 'GRL', 'PV', 'NCB veto',
'MET', 'DV Selection'
]
#systematic_tables = TFile('systematic_summary_SimpleMETFilter.root', 'open')
#table = TH1F()
m_MET_min = 250.
# loop over dsid
try:
for dsid, each_tchain in tchains:
print('')
print(dsid)
#index = 0
#for input in glob(directory + 'systTree_' + str(dsid) + '_*.root'):
for tchain in each_tchain:
#for input_file in glob(directory+'systTree_mc15_13TeV.' + str(dsid) + '*.root'):
# print(input_file)
# tchain.Add(input_file)
tchain.Add(args.inputFile)
mass_gluino[0] = mc.parameters[dsid]['g']
delta_mass[0] = mass_gluino[0] - mc.parameters[dsid]['chi0']
n_reweight_steps = 40
xmin = 1.
xmax = 10000.
ratio = xmax / xmin
bins = []
for ii in range(n_reweight_steps):
bins.append(
xmax *
10**(ii * TMath.Log10(xmax / xmin) / n_reweight_steps -
TMath.Log10(xmax / xmin)))
#n_passed_w1 = [0. for _ in range(n_reweight_steps)]
#n_passed = [0. for _ in range(n_reweight_steps)]
from array import array
limitsLifetime = array('d', bins)
#
tefficiency = [[
TEfficiency('tefficiency_{0}_{1}_{2}'.format(key, step, dsid),
';c#tau [mm]; Event-level efficiency',
len(limitsLifetime) - 1, limitsLifetime)
for step in range(n_reweight_steps)
] for key in key_list]
#h_syst_diff = [[TH1F('syst_diff_{0}_{1}_{2}'.format(key, step, dsid), ';;(N_{shifted} - N_{nominal}) / N_{nominal}', len(key_list)+1, 0, len(key_list)+1)
# for step in range(n_reweight_steps)] for key in key_list]
h_syst_diff = [
TH1F('syst_diff_{0}_{1}_{2}'.format(key, step, dsid),
';;(N_{shifted} - N_{nominal}) / N_{nominal}',
len(key_list) + 1, 0,
len(key_list) + 1) for step in range(n_reweight_steps)
]
for step in range(n_reweight_steps):
for jj, key in enumerate(key_list):
h_syst_diff[step].GetXaxis().SetBinLabel(jj + 1, key)
h_syst_diff[step].GetXaxis().SetBinLabel(
len(key_list) + 1, 'ISR_Py2MG_SF_removed')
n_events_weighted = [[0. for _ in range(n_reweight_steps)]
for key in key_list]
n_events_weighted_noISR = [[0. for _ in range(n_reweight_steps)]
for key in key_list]
# loop over tchain of each systematic
for ii, tchain in enumerate(each_tchain):
entries = tchain.GetEntries()
print('*** processed systs: {0} / {1}'.format(
ii, len(each_tchain)))
#n_reweight_steps = 50
#for step in range(n_reweight_steps):
# tefficiency.append(TEfficiency('tefficiency_'+str(step), ';c#tau [mm]; Event-level efficiency',
# len(limitsLifetime)-1, limitsLifetime))
# h_syst_diff.append(TH1F('syst_diff_'+str(step), ';;(N_{shifted} - N_{nominal}) / N_{nominal}', len(key_list)+1, 0, len(key_list)+1))
for step in range(n_reweight_steps):
tefficiency[ii][step].SetUseWeightedEvents()
#for jj, key in enumerate(key_list):
# h_syst_diff[ii][step].GetXaxis().SetBinLabel(jj+1, key)
#h_syst_diff[ii][step].GetXaxis().SetBinLabel(len(key_list)+1, 'ISR_Py2MG_SF_removed')
# h_syst_diff[step].SetMinimum(-0.3)
# h_syst_diff[step].SetMaximum(0.3)
if entries == 0:
continue
for entry in range(entries):
#if entry % 1000 == 0:
# print('* processed events: {0} / {1}'.format(entry, entries))
utils.show_progress(entry, entries)
#if entry == 605:
# break
# get the next tree in the chain and verify
ientry = tchain.LoadTree(entry)
if ientry < 0:
break
# copy next entry into memory and verify
nb = tchain.GetEntry(entry)
if nb <= 0:
continue
event_weight = tchain.McEventWeight * tchain.PileupWeight * tchain.ISRWeight
ctau_MC = TMath.C(
) * mc.parameters[dsid]['t'] * 1e-9 # [nm]->[m]
for step in range(n_reweight_steps):
#print(tchain.GetListOfBranches())
pass_all = pass_event_cut(tchain, len(cut_flow) - 1)
if pass_all:
matched = False
for idv in range(len(tchain.DV_x)):
matched = matched or match(
tchain, idv, cut=1.0)
#print('pass_all is ', pass_all, ', matched is ', matched)
pass_all = pass_all and matched
target_ctau = xmax * 10**(
step * TMath.Log10(xmax / xmin) / n_reweight_steps
- TMath.Log10(xmax / xmin)) * 1e-3 # [mm]->[m]
#print(target_ctau)
lifetime_weight = get_lifetime_weight(
tchain, target_ctau, ctau_MC)
n_events_weighted[ii][
step] += event_weight * lifetime_weight
n_events_weighted_noISR[ii][
step] += tchain.McEventWeight * tchain.PileupWeight * lifetime_weight
#print(event_weight)
#print(event_weight*lifetime_weight)
#print(pass_all)
tefficiency[ii][step].FillWeighted(
pass_all, event_weight * lifetime_weight,
target_ctau * 1e3)
# end of loop over entries of each TChain
# end loop over tchain of each systematic
for step in range(n_reweight_steps):
n_events_nominal = [0. for _ in range(n_reweight_steps)]
for ii in range(len(each_tchain)):
# if Nominal TTree, set syst diff of ISR as well
if ii == 0:
n_events_nominal[step] = n_events_weighted[ii][step]
if n_events_nominal[step] < 1e-4:
#h_syst_diff[ii][step].SetBinContent(len(key_list)+1, 0)
h_syst_diff[step].SetBinContent(
len(key_list) + 1, 0)
else:
#h_syst_diff[ii][step].SetBinContent(len(key_list)+1,
h_syst_diff[step].SetBinContent(
len(key_list) + 1,
float((n_events_weighted_noISR[ii][step] -
n_events_nominal[step]) /
n_events_nominal[step]))
#float((n_events_weighted[ii][step]-n_events_nominal[step])/n_events_nominal[step]))
diff = n_events_weighted[ii][step] - n_events_nominal[step]
#print(n_events_nominal, n_events_weighted, diff)
if n_events_nominal[step] < 1e-4:
#h_syst_diff[ii][step].SetBinContent(ii+1, 0)
h_syst_diff[step].SetBinContent(ii + 1, 0)
else:
#h_syst_diff[ii][step].SetBinContent(ii+1, float(diff/n_events_nominal[step]))
h_syst_diff[step].SetBinContent(
ii + 1, float(diff / n_events_nominal[step]))
#systematic_tables.GetObject('systematic_table_'+str(dsid), table)
#syst_up, syst_down = root_sum_squares(table, 'x')
#systs = root_sum_squares(h_syst_diff[ii][step], 'x')
systs = root_sum_squares(h_syst_diff[step], 'x')
#eff_syst_error[0] = max(syst_up, syst_down) # TODO
#eff_syst_error[0] = (syst_up**2 + syst_down**2)**0.5
#### ############################
eff_syst_error[0] = (systs[0]**2 + systs[1]**2)**0.5
eff_syst_error_ISR[0] = systs[2]
eff_syst_error_PRW[0] = systs[3]
eff_syst_error_JET[0] = systs[4]
eff_syst_error_MET[0] = systs[5]
if eff_syst_error[0] > 1:
print('eff_syst_error[0] = ' + str(eff_syst_error[0]))
#eff_syst_error[0] = 1.
#for step in range(n_reweight_steps):
#for ct in bins:
# print(len(bins), bins)
#print(n_total_w1[step], n_total[step])
#sf = n_total_w1[step] / n_total[step]
#n_passed[step] *= sf
#n_total[step] *= sf
#eff_no_weight, stat_error_no_weight = utils.division_error_propagation(n_passed_w1[step], n_total_w1[step])
#ctau[0] = TMath.Power(300, step/float(n_reweight_steps-1)) * 1e-3 # [mm]->[m]
ct = bins[step]
#print(ct)
ctau[0] = ct * 1e-3 # [mm]->[m]
#print(ctau[0])
bin_ctau = tefficiency[0][step].GetPassedHistogram().FindBin(
ct)
print(tefficiency[0][step].GetPassedHistogram().GetBinContent(
bin_ctau))
print(tefficiency[0][step].GetTotalHistogram().GetBinContent(
bin_ctau))
#print(bin_ctau)
#print('ct', ct, 'bin_ctau', bin_ctau)
eff[0] = tefficiency[0][step].GetEfficiency(bin_ctau)
print(eff[0])
abs_stat_error = (
tefficiency[0][step].GetEfficiencyErrorLow(bin_ctau)**2 +
tefficiency[0][step].GetEfficiencyErrorUp(bin_ctau)**
2)**0.5
#eff[0], abs_stat_error = utils.binomial_ratio_and_error(n_passed[step], n_total[step])
#if eff[0] < 1e-4:
if eff[0] == 0:
eff_stat_error[
0] = 1. # avoid zero division error and divergence
continue # not fill values in tree if efficiency is too small
else:
eff_stat_error[0] = abs_stat_error / eff[0]
#if eff_stat_error[0] > 1:
# print(n_passed[step], n_total[step], abs_stat_error, eff[0], eff_stat_error[0])
# eff_stat_error[0] = 1.
tree.Fill()
# end loop over n_reweight_steps
except KeyboardInterrupt:
pass
output_tfile.Write()
output_tfile.Close()
def GetTuple(self, chain):
print(
" ----> The following general mask will be applyied to the chain : \n"
)
print('-- muon : {}'.format(
self.filter_mask['daughter_mask'].split('**')))
print('-- Jpsi : {}'.format(
self.filter_mask['mother_mask'].split('**')))
print('-- other : {}'.format(self.filter_mask['other'].split('**')))
print("\n *** You may also want to check \n"
" *** AnnaTupleFilterJpsiPbPbV2::IsInLuminosityRegion() \n"
" *** and AnnaTupleFilterJpsiPbPbV2::IsMuonsGhosts() \n"
" *** where other cuts are also defined \n")
ntuple = self.CreateTuple()
okBranch = self.CheckChainBranch(chain)
if okBranch is False:
error(' attributes are missing')
return None
# counters
entry_number = 0
entry_exlude = 0
tot_entries = chain.GetEntriesFast()
muon_all = list()
print(' --- Start running over events ...')
with ProgressBar(max_value=tot_entries, silent=False) as bar:
for entry in chain:
entry_number += 1
bar.update_amount(entry_number)
ok_lumi, v_OWNPV, v_ENDVERTEX = self.IsInLuminosityRegion(
entry_number, entry)
if ok_lumi is False:
info("entry {} does not pass the luminosity cut".format(
entry_number))
entry_exlude += 1
continue
ok_muon = self.PassMuonCuts(entry_number, entry)
if ok_muon is False:
info("entry {} do not pass muons cut".format(entry_number))
entry_exlude += 1
continue
# Check muon ghost probability
is_ghost = self.IsMuonsGhosts(entry_number, entry, muon_all)
if is_ghost is True:
info("entry {} most likely have ghosts".format(
entry_number))
entry_exlude += 1
continue
ok_mother = self.PassMuonCuts(entry_number, entry)
if ok_mother is False:
info(
"entry {} do not pass mother cut".format(entry_number))
entry_exlude += 1
continue
# Prepare Data
rho = v_OWNPV.Perp()
v_OWNPV -= v_ENDVERTEX
dZ = (getattr(entry, self.mother_leaf + '_ENDVERTEX_Z') -
getattr(entry, self.mother_leaf + '_OWNPV_Z')) * 1e-3
tZ = dZ * 3096.916 / (
getattr(entry, self.mother_leaf + '_PZ') * TMath.C())
ntuple.Fill(getattr(entry, self.mother_leaf + '_MM'),
getattr(entry, self.mother_leaf + '_PT'),
getattr(entry, self.mother_leaf + '_Y'),
getattr(entry, self.mother_leaf + '_OWNPV_Z'),
v_OWNPV.Mag(), dZ, tZ,
getattr(entry, self.dimuon_leafs[0] + '_PIDmu'),
getattr(entry, self.dimuon_leafs[1] + '_PIDmu'),
getattr(entry, self.dimuon_leafs[0] + '_PIDK'),
getattr(entry, self.dimuon_leafs[1] + '_PIDK'),
getattr(entry, 'eHcal'), getattr(entry, 'eEcal'),
getattr(entry, 'nVeloClusters'))
print(
' --- Done ! Ran over {} events with {:.1f}% removed from cuts !'.
format(entry_number,
float(entry_exlude) / float(entry_number) * 100))
return ntuple
def generateEvents( outputFileName, nEvents ):
random = TRandom3( 12345 )
# define a particle source
sourcePosition = TVector3( 0., 0., 0. )
sourceSpreadXY = 10.
pdgid = 13
charge = -1.
mass = 0.105658
momentum = TVector3( 0.3, 0.1, 10. )
runNumber = 321
# define a detector with positions for the tracker planes
detectorName = 'ToyTracker'
trackerPlanePositions = []
hitResolution = 0.01
planeNormal = TVector3( 0., 0., 1. )
for planeZ in [ 100., 250., 480., 510., 640. ]:
trackerPlanePositions.append( TVector3( 0., 0., planeZ ) )
# create a writer and open the output file
writer = IOIMPL.LCFactory.getInstance().createLCWriter()
writer.open( outputFileName, EVENT.LCIO.WRITE_NEW )
# create a run header and add it to the file (optional)
run = IMPL.LCRunHeaderImpl()
run.setRunNumber( runNumber )
run.setDetectorName( detectorName )
run.setDescription( 'This is a test run' )
writer.writeRunHeader( run )
for iEvent in xrange( nEvents ):
# create an event and set its parameters
event = IMPL.LCEventImpl()
event.setEventNumber( iEvent )
event.setDetectorName( detectorName )
event.setRunNumber( runNumber )
event.setTimeStamp( int( time() * 1000000000. ) )
# create the mc particle collection
mcParticles = IMPL.LCCollectionVec( EVENT.LCIO.MCPARTICLE )
# calculate the origin of the particle
x = random.Gaus( sourcePosition.x(), sourceSpreadXY )
y = random.Gaus( sourcePosition.y(), sourceSpreadXY )
z = sourcePosition.z()
origin = TVector3( x, y, z )
# create a particle
mcParticle = IMPL.MCParticleImpl()
mcParticle.setPDG( pdgid )
mcParticle.setMass( mass )
mcParticle.setMomentumVec( momentum )
mcParticle.setGeneratorStatus( 1 )
mcParticle.setVertexVec( origin )
mcParticle.setTime( 0. )
mcParticles.addElement( mcParticle )
# create a tracker hit collection
trackerHits = IMPL.LCCollectionVec( EVENT.LCIO.SIMTRACKERHIT )
trackerHits.setFlag( UTIL.set_bit( trackerHits.getFlag(), EVENT.LCIO.THBIT_MOMENTUM ) )
# create an IDEncoder to store hit IDs
# defines the tags and the number of bits for the different bit fields
encodingString = 'system:3,layer:6'
idEncoder = UTIL.CellIDEncoder( IMPL.SimTrackerHitImpl )( encodingString, trackerHits )
# add a hit for each layer
for planePosition in trackerPlanePositions:
# calculate the intersection with the plane
distance = ( planePosition - origin ).Dot( planeNormal ) / momentum.Dot( planeNormal )
intersect = TVector3( momentum )
intersect.SetMag( distance )
# smear the hit position with the resolution
hitX = random.Gaus( intersect.x(), hitResolution )
hitY = random.Gaus( intersect.x(), hitResolution )
hitPosition = TVector3( hitX, hitY, intersect.z() )
# build the tracker hit
trackerHit = IMPL.SimTrackerHitImpl()
trackerHit.setPositionVec( hitPosition )
trackerHit.setMomentumVec( momentum )
trackerHit.setMCParticle( mcParticle )
trackerHit.setTime( distance / TMath.C() )
trackerHit.setEDep( 0.1 )
# set the cell ID
idEncoder.reset()
idEncoder['layer'] = trackerPlanePositions.index( planePosition )
idEncoder['system'] = 1
idEncoder.setCellID( trackerHit )
trackerHits.addElement( trackerHit )
event.addCollection( mcParticles, EVENT.LCIO.MCPARTICLE )
event.addCollection( trackerHits, 'SimTrackerHits' )
writer.writeEvent( event )
writer.flush()
writer.close()
#chargino tau values in cm
lifetimes = [
'2', '3', '4', '5', '6', '7', '8', '9', '10', '20', '30', '40', '50', '60',
'70', '80', '90', '100', '200', '300', '400', '500', '600', '700', '800',
'900', '1000', '2000', '3000', '4000', '5000', '6000', '7000', '8000',
'9000', '10000'
]
convertCmToNs = True
makeColorPlot = False
convertToMassSplitting = False
outputName = "limit_plot.root"
#yAxisRangeFor1DMassLimits = [0.01, 10000]
yAxisRangeFor1DMassLimits = [5.0e-3, 2.0e3]
speedLightCmPerNs = TMath.C() * 1.0e-7
convertToNs = (lambda a: round(a / speedLightCmPerNs, 2))
# description of all the plots to be made
plotDefinitions = [
#each entry corresponds to a canvas in the output file
######################LIFETIME (ns) VS MASS
{
# this will be the name of the canvas in the output root file
'title':
'lifetime_vs_mass',
# current options are 'mass' and 'lifetime'
'xAxisType':
def GetTuple(self, chain):
"""The main method of the class
Here the class run in all events in the tree/chain
and return a filled new tuple for events passing the
selection
Arguments:
chain {TChain}
Returns:
TNtuple
"""
general_mask = self.GetGeneralMask()
print(
" ----> The following general mask will be applyied to the chain : \n"
)
print('-- muon_mask : {}'.format(
self.filter_mask['muon_mask'].split('**')))
print('-- mother_mask : {}'.format(
self.filter_mask['mother_mask'].split('**')))
print('-- other : {}'.format(self.filter_mask['other'].split('**')))
print("\n *** You may also want to check \n"
" *** AnnaTupleFilterD0PbPb::IsInLuminosityRegion() \n"
" *** and AnnaTupleFilterD0PbPb::IsMuonsGhosts() \n"
" *** where other cuts are also defined \n")
if general_mask is None:
error(':GetTuple: Cannot get the mask')
return None
ntuple = self.CreateTuple()
okBranch = self.CheckChainBranch(chain)
if okBranch is False:
error(' attributes are missing')
return None
# counters
entry_number = 0
entry_exlude = 0
muon_all = list()
print(' --- Start running over events ...')
for entry in chain.withCuts(general_mask, progress=True):
entry_number += 1
# Check the vertex position
ok_lumi, v_OWNPV, v_ENDVERTEX = self.IsInLuminosityRegion(
entry_number, entry)
if ok_lumi is False:
info("entry {} does not pass the luminosity cut".format(
entry_number))
entry_exlude += 1
continue
# Check muon ghost probability
is_ghost = self.IsMuonsGhosts(entry_number, entry, muon_all)
if is_ghost is True:
info("entry {} most likely have ghosts".format(entry_number))
entry_exlude += 1
continue
# Prepare Data
v_OWNPV -= v_ENDVERTEX
dZ = (getattr(entry, self.mother_leaf + '_ENDVERTEX_Z') -
getattr(entry, self.mother_leaf + '_OWNPV_Z')) * 1e-3
tZ = dZ * 3096.916 / (getattr(entry, self.mother_leaf + '_PZ') *
TMath.C())
ntuple.Fill(getattr(entry, self.mother_leaf + '_MM'),
getattr(entry, self.mother_leaf + '_PT'),
getattr(entry, self.mother_leaf + '_Y'),
getattr(entry, self.mother_leaf + '_OWNPV_Z'),
v_OWNPV.Mag(), dZ, tZ,
getattr(entry, self.dimuon_leafs[0] + '_PIDmu'),
getattr(entry, self.dimuon_leafs[1] + '_PIDmu'),
getattr(entry, self.dimuon_leafs[0] + '_PIDK'),
getattr(entry, self.dimuon_leafs[1] + '_PIDK'),
getattr(entry, 'eHcal'), getattr(entry, 'eEcal'),
getattr(entry, 'nVeloClusters'))
print(
' --- Done ! Ran over {} events with {:.1f}% removed from cuts !'.
format(entry_number,
float(entry_exlude) / float(entry_number) * 100))
return ntuple
#!/usr/bin/env python
from DisappTrks.LimitSetting.limitOptions import *
from DisappTrks.LimitSetting.winoElectroweakLimits import *
from ROOT import TMath
convertCmToNs = True
outputName = "limit_plots.root"
yAxisRangeFor1DMassLimits = [1.e-3, 1.e3]
roundLumiText = True
speedLightCmPerNs = TMath.C() * 1.0e-7
convertToNs = (lambda a: round(a / speedLightCmPerNs, 2))
showObserved = True
theoryComments = [
'tan #beta = 5, #mu > 0',
'pp #rightarrow #tilde{#chi}^{#pm}_{1}#tilde{#chi}^{#mp}_{1}, wino-like #tilde{#chi}_{0}'
]
# description of all the plots to be made
plotDefinitions = [
#each entry corresponds to a canvas in the output file
######################LIFETIME (ns) VS MASS
{
# this will be the name of the canvas in the output root file
"goff")
bragg_max = events_inside_hist.GetMean()
try:
args = (p, n, b, bragg_max)
retcode = subprocess.call("my_bragg_400 dati/%i_ %i %i %f" % args,
shell=True)
if retcode < 0:
print("Child was terminated by signal", -retcode, file=sys.stderr)
else:
print("Child returned", retcode, file=sys.stderr)
except OSError, e:
print("Execution failed:", retcode, file=sys.stderr)
bragg_new = Bragg.Bragg(p)
events_escaped_can = TCanvas("escaped_can", "escaped_can")
events_escaped_hist = TH1S("escaped", "escaped", 30, 30, 60)
bragg.ntuple.Draw("deltaT>>escaped", "maxC < 149 && integr > 5000")
distance = 11e-2
escape_time = events_escaped_hist.GetMean() * 1e-7
b_600 = Bragg.Bragg(600)
b_600.ntuple.Draw("energy_fraction", b_600.spectral_lines[0])
print(escape_time)
electron_beta = distance / escape_time / TMath.C()
print(electron_beta)
raw_input()